Growth Bad Impacts – General Impact – Biodiversity 2NC
Economic growth is leading us down a path to extinction- trade and other factors are causing biodiversity to die off
Gates, Trauger and Czech 14- Professor of Wildlife Ecology, professor in natural resources management, PHD
(J. Edward, David L., and Brian, Peak Oil, “Envisioning an Alternative Future”, Economic Growth, and Wildlife Conservation, Chapter 15, p.317, 21 Nov 2014 http://link.springer.com/chapter/10.1007/978-1-4939-1954-3_15)//WB
There are many anthropogenic causes of the ongoing Sixth Mass Extinction, including human destruction of ecosystems, landscape fragmentation, overexploitation of species and natural resources, spread of invasive species, human population growth, illegal consumption and trade in wildlife products, the further spread of agriculture, and various forms of pollution. Many of these threats to biodiversity derive ultimately from economic growth [11]. Habitat loss and degradation affects 86% of all threatened birds, 86% of the threatened mammals assessed, and 88% of the threatened amphibians (http://www.iucnredlist.org/news/biodiversity-crisis, accessed 21 October 2013). Losses also stem from introductions of invasive alien species from travel and global trade that establish and spread outside their normal distribution. Some threatening invasive species include feral domestic cat (Felis silvestris catus) and black rat (Rattus rattus), wild boar (Sus scrofa), green crab (Carcinus maenas), zebra mussel (Dreissena polymorpha), African tulip tree (Spathodea campanulata), Burmese python (Python molurus bivittatus), hemlock woolly adelgid (Adelges tsuga annand), and brown tree snake (Boiga irregularis). Introductions can happen deliberately or unintentionally, for example, by organisms “hitchhiking” in containers, ships, cars, or soil. Exploitation of natural resources for food, pets, and medicine can result in unconstrained resource extraction, and overhunting and over fishing. Spread of diseases and pollution by humans are other factors; for example, excessive fertilizer use can lead to high levels of nutrients in soil and waterways, affecting soil organisms and aquatic life. Burning of fossil fuels by humans is resulting in changes to the global climate; these changes threaten entire ecosystems and their associated species. By some accounts, “the race to save the composition, structure, and organization of biodiversity as it exists today—is over, and we have lost.” [53]. Our sheer numbers and activities have made us a force of nature that now threatens the functioning of our planet’s life-support system. In recognition of the prominent role played by humans since the beginning of the Industrial Revolution in altering planetary geologic, climatic, and biologic systems, some geologists have labeled this interval the Anthropocene Epoch [61, 72]. In the Anthropocene, evolution of species by natural selection has been replaced by human selection as the dominant process. Baring a mass die-off of humans, there is little that anyone can do now to stop this Sixth Mass Extinction. As noted by Stephen M. Meyer [53], “In the past century we have accumulated a vast extinction debt that will be paid in the century ahead.” During this time, Earth could lose upward of 50% of its plant and animal species, making extinction one of our longest-lasting legacies to future generations. Little comfort can be taken in the fact that over tens of millions of years, the biodiversity of our planet may recover from this Sixth Mass Extinction, as it has from past extinction events; but, as happened following the demise of the dinosaurs at the end of the Cretaceous (65 million years ago), the evolutionary trajectory of life on Earth will have been permanently altered, resulting in totally different species composition and distribution. The biodiversity of Earth will be as different then as that between today and the Age of Dinosaurs!
Biodiversity loss causes extinction
Jackson 12 (Ross, PhD in operations research at Case Western, Masters in Industrial management at Purdue, Chairman of GAIA Trust, Ex-Independent IT consultant and softwar designer specializing in international finance. “Occupy World Street” http://books.google.com/books?hl=en&lr=&id=YfpyNxdvu4IC&oi=fnd&pg=PR8&dq=occupy+wall+street+marxism+criticism&ots=VgS8nTrZ1B&sig=-ZkZnlymqND7x5Lb8UecwY1fcjM#v=onepage&q&f=false
A substantial majority of scientists agree that the world is currently undergoing the sixth known extinction of species, the most recent being when the dinosaurs were wiped out by a meteor crashing into the earth.' While the previous five extinctions were spurred by volcanic eruptions, meteor impacts, and other exogenous causes, the current one has been brought on by human actions. Species extinction is another example of ecosystem reaction to overload, and is potentially fatal for humankind, as we are dependent on other plant and animal species for our own survival. A number of biologists have predicted that up to one-fifth of all living species could disappear within 30 years, and that if present trends continue, one-half of all species of life on earth will be extinct in less than 100 years, including one-third of the mammal population as a result of habitat destruction, pollution, invasive species, and climate change. Daniel Simberloff.a University of Tennessee ecologist and prominent expert in biological diversity, says, "The speed at which species are being lost is much faster than any we've seen in the past— including those [extinctions) related to meteor collisions." One of the major direct causes is loss of habitat as humans take over more and more of the space previously occupied by other species as population grows. Hunting, logging, overfishing, and pollution have also caused significant losses. Many species of birds, frogs, and other animals sensitive to toxins have fallen to pollution. Other life-forms can be very sensitive to subtle changes caused by increasing CO, levels. For example, coral reefs are dying on account of a complex of factors, including small temperature and acidity changes in the oceans, while the polar bear's time is running out as the arctic ice melts. Many plants and insects are disappearing without us even noticing, as are many microorganisms in soils that are depleted by chemical agriculture. These extinctions are going to have serious consequences for humanity. It is impossible to predict specifically how this ongoing mass-extinction event will affect the human population other than to say that it will be severely negative. The problem is that natural systems are complex, deeply interconnected, and far beyond our capability to understand. A species that disappears may have unpredictable effects on the whole food chain, all the way up to humans at the top. Biodiversity is not just about pleasant experiences of humankind in nature, but is about resilience, robustness, and redundancy in the face of change—it is nature's immune system. When we weaken biodiversity, we increase the likelihood of some aspect of nature going off in an entirely unexpected direction that is potentially fatal for humankind, for example, mutations and cell crossovers leading to new kinds of dangerous bacteria and viruses, or perhaps fatal attacks on crops or domesticated animals that we are dependent upon for food.
Impact – Biodiversity Ext.
All of the main causes of environmental degradation stem from growth
Daley and Kent, 13
(Ben and Rebecca, “Environmental Science and Management”, Centre for Development, Environment and Policy, Section 1.4, http://www.soas.ac.uk/cedep-demos/000_P500_ESM_K3736-Demo/unit1/page_11.htm)//WB
The causes of the environmental crisis The causes of the environmental crisis have been the subject of considerable debate. However, in general, its main causes are now acknowledged to be: technological developments over the course of human history - and particularly since the Industrial Revolution - which have allowed humans to exert a greater influence over natural resources and ecosystems rapidly increasing human population which has led to significant increases in human population density in many parts of the world dramatic increases in resource and energy consumption - particularly since the Industrial Revolution, and especially since around 1950 - which have accompanied economic growth and rising standards of living in some parts of the world as illustrated in 1.4.2. 1.4.2 Energy consumption, economic development and CO2 emissions; selected Latin America countries the emergence and development of the capitalist world economy in which increasing flows of people, resources, products, energy and waste have occurred, together with increasing environmental impacts utilitarian attitudes towards the environment which have allowed the unrestricted exploitation of natural resources and ecosystems short-term patterns of decision-making exhibited by many governments, companies and individuals, which place greater emphasis on short-term profit maximisation (or value maximisation) than on environmental protection
Impact – Disease 2NC
The current economic system structurally discourages research to solves diseases – focus on profit prevents cures from being distributed
Wiist, DHSc, MPH, MS, 6
(William, “Public Health and the Anticorporate Movement: Rationale and Recommendations”, American Journal of Public Health, Government, Politics, and Law Peer Reviewed, August 2006, http://people.oregonstate.edu/~flayb/MY%20COURSES/H671%20Advanced%20Theories%20of%20Health%20Behavior%20-%20Fall%202012/Readings/Wiist06%20Corporate%20influences,%20PH%20and%20the%20anticporporate%20movement.pdf)//WB
MANY PUBLIC HEALTH professionals are aware of or have been involved in public health problems and issues related to corporate products, services, or practices. Freudenberg1 described a wide variety of products and practices of what he termed disease-promoting corporations. Included are products such as tobacco, unsafe and polluting motor vehicles, expensive medications, guns, alcohol, and certain foods. Other issues that have generated public health advocacy and research include consumer product safety, hazardous industrial materials, water and air pollution, food supply safety, nutritional content and marketing, and occupational health and safety. Corporations also influence health services. For example, federal funding for some health services such as Medicaid has decreased while the number of people eligible for services has increased2 in part because corporations have increased employee contributions to health insurance premiums or they do not provide health insurance.3 Regulatory agencies have a limited number of employees to conduct inspections of corporations and enforce health and safety regulations.4 Also, efforts to prevent or minimize damage from corporate practices or products face opposition from large, well-funded, organized corporate opposition,1 for example, the tobacco settlement5 and the automobile industry position on safety and fuel efficiency.4 Typically, the field of public health has addressed issues such as these as singular issues, as a specific product, or as a single company or a particular type of industry. Public health could do more along those lines, but as egregious as the harm from some products, services, and practices may seem, the prevention or amelioration of the harmful effects in and of themselves does not address the fundamental structure and function common to all corporations. Rather than expending efforts and resources to confront a particular type of industry or a single health issue, the field of public health might be more effective with a research agenda and a professional preparation curriculum that focus on the corporation as a societal structural factor in disease. Such an approach is consistent with the historical and contemporary mission of public health. Over the past decade there has been a movement to return public health to its social justice roots, to a focus on the social determinants of health.6,7 There has been a call for a third public health revolution that focuses on the distal causative factors of disease.8 Public health ethics, values, and beliefs identify public health’s primary role as that of addressing the fundamental societal structural causes of disease.9 Public health is increasingly focusing on distal structural factors related to inequities in health,10 income inequality, economic growth and instability,11 social relationships,12 the built environment,13 and trade regulations.14,15 Public health could benefit in several ways from a focus on the corporation as a distal, societal structural factor. Because corporate products, services, and practices provide tangible targets for advocacy and research, such an approach could be more useful than focusing on concepts such as free market fundamentalism or extreme capitalism. Research could examine the influence of the corporate entity on indicators of health status. Academic programs could prepare practitioners to address the corporate role in disease and injury. Public health advocacy activities related to the corporate products already noted1 could link to the anticorporate movement. Focusing on the corporation as a societal structural factor might also suggest ways to address issues such as race/ethnicity, gender, age, socioeconomic status, and disability that are often manifest in a corporate setting. An anticorporate movement’s perspective of the corporate entity as a societal structural factor is instructive for public health. Review of that perspective points out the mutual interests in social justice, ethics, and the social determinants of health that public health has with the anticorporate movement.
Disease causes extinction—no burnout
Karl-Heinz Kerscher 14, Professor, “Space Education”, Wissenschaftliche Studie, 2014, 92 Seiten
The death toll for a pandemic is equal to the virulence, the deadliness of the pathogen or pathogens, multiplied by the number of people eventually infected. It has been hypothesized that there is an upper limit to the virulence of naturally evolved pathogens. This is because a pathogen that quickly kills its hosts might not have enough time to spread to new ones, while one that kills its hosts more slowly or not at all will allow carriers more time to spread the infection, and thus likely out-compete a more lethal species or strain. This simple model predicts that if virulence and transmission are not linked in any way, pathogens will evolve towards low virulence and rapid transmission. However, this assumption is not always valid and in more complex models, where the level of virulence and the rate of transmission are related, high levels of virulence can evolve. The level of virulence that is possible is instead limited by the existence of complex populations of hosts, with different susceptibilities to infection, or by some hosts being geographically isolated. The size of the host population and competition between different strains of pathogens can also alter virulence. There are numerous historical examples of pandemics that have had a devastating effect on a large number of people, which makes the possibility of global pandemic a realistic threat to human civilization.
Impact – Endocrine 2NC
Economic growth and industrialization cause an increase of endocrine disrupters- Asia proves
Tanbe 8- Professor at the Center for Marine Environmental Studies
(Shinsuke, “Temporal trends of brominated flame retardants in coastal waters of Japan and South China: Retrospective monitoring study using archived samples from es-Bank, Ehime University, Japan”, Marine Pollution Bulletin Volume 57, Issues 6–12, 2008, Pages 267–274, http://www.sciencedirect.com/science/article/pii/S0025326X0800009X)//WB
Brominated flame retardants (BFRs) are a group of compounds that are added to a wide range of products, such as printed circuit boards, computer cases, household electronic appliances and construction materials to prevent the outbreak of fire (Alaee et al., 2003). These substances are high volume chemicals and include polybrominated diphenyl ethers (PBDEs), hexabromocyclododecanes (HBCDs), polybrominated biphenyl (PBB) and tetrabromobisphenol A (TBBPA). Among them, additive flame retardants like PBDEs, HBCDs and PBBs are the focus of current concerns due to their persistence, bioaccumulative nature, and possible adverse effects on humans and wildlife (Darnerud, 2003 and Birnbaum and Staskal, 2004). These additive flame retardants can enter the environment through several routes such as leaching during production and application processes, by volatilization during use as well as disposal in domestic waste, landfills or during recycling. Although the potential risk of PBDEs in wildlife is not clear, experimental studies using different PBDE commercial mixtures as well as individual BDE congeners have shown various effects in both fish and mammals. The potential adverse toxicological effects include liver enzyme induction, activation of the Ah receptor, immunological and neurotoxic effects, propensity to disrupt thyroid hormone homeostasis, and vitamin A levels (de Wit, 2002 and Darnerud et al., 2001). Similarly, HBCDs have also been found to induce neurotoxic effects in cerebellar granule cells of rats in vitro ( Reistad et al., 2006). Consequently, the concern about these compounds as potential endocrine disruptors in humans and wildlife has been growing in recent years. Monitoring studies over a period of time can provide information regarding contaminant variability and trends in exposure. Several temporal trend studies have shown increasing PBDE levels in various environmental matrices (Hites, 2004), probably due to increased use of these chemicals as flame retardants. In contrast, though usage of HBCDs is not regulated and is now increasing, very few studies have reported HBCD levels in environmental samples. Covaci et al. (2006) in a recent overview of HBCDs in several environmental media found increasing trends in the environment. According to the Bromine Science and Environmental Forum (BSEF) 2004, the global market demand for PBDEs and HBCDs was estimated at 67,490 and 16,700 tons, respectively, of which 37% and 23%, correspondingly, was consumed in Asia. Asia is currently a major global industrial center with some of the fastest economic growth rates in the world. Urbanization and onset of industrialization have resulted in increased production of new chemicals and their subsequent release into the environment in this region. In addition, lack of strict environmental regulations/enforcement in some of the Asian countries allows import and disposal of electric and electronic waste (e-waste) generated in industrialized countries (UNEP, 2005).
Endocrine disruption causes extinction
Togawa 99 (Tatsuo, Institute of Biomaterials and Bioengineering – Tokyo Medical and Dental University, Technology in Society, August)
Advanced technology provides a comfortable life for many people, but it also produces strong destructive forces that can cause extinction of the human race if used accidentally or intentionally. As stated in the Russell-Einstein Manifesto of 1955, hydrogen bombs might possibly put an end to the human race.1 Nuclear weapons are not the only risks that arise from modem technologies. In 1962, Rachel Carson wrote in her book, Silent Spring [2], that the amount of the pesticide parathion used on California farms alone at that time could provide a lethal dose for five to ten times the whole world's population. Destruction of the ozone layer, the greenhouse effect, and chemical pollution by endocrine destructive chemicals began to appear as the result of advanced technology, and they are now considered to be potential causes of extinction of the human race unless they are effectively controlled.
Impact – Laundry List 2NC Extinction—laundry list of internal links prove human effects will destroy the earth
Rockstrom, Stockholm University environmental science professor, 2015 (Johan, “Bounding the Planetary Future: Why We Need a Great Transition,” Great Transition Initiative, April 2015, http://www.greattransition.org/images/GTI_publications/Rockstrom-Bounding_the_Planetary_Future.pdf, p. 1-2, IC)
Human societies have for millennia faced severe environmental challenges, some of which have even triggered social and ecological collapse. Such was the fate of Mayan civilization and Mesopotamian irrigation societies, among many others. However, the scale of impact remained local or regional—until now. Over the past fifty years, the evidence has mounted of a massive shift in the magnitude and pace of human pressures on the planet. Although this “Great Acceleration” began in the mid-1950s, over the last twenty-five years, we have started to see the first evidence that critical thresholds of the Earth system are in danger of being crossed (Figure 1).1 Multiple signals sound the alert: the collapse of marine fisheries; accelerated melting of ice sheets, upwelling of warm ocean waters, and methane release from thawing Siberian seabeds; climate volatility and extreme droughts; shifts in ecological regimes in lakes caused by nutrient runoffs from fertilizers and other sources; and the collapse of tropical coral reef systems. Today, we can state with a high degree of confidence that the sheer accumulation of such anthropogenic impacts can disrupt the homeostasis of the Earth system.2
Humanity has become the dominant force of change on Earth, surpassing in importance the geophysical forces that have heretofore shaped the biosphere.3 In this new geological epoch, often called the Anthropocene, a profound new risk can be added to the conventional concerns of dwindling resources and local pollution: human action could push the Earth system to abrupt and irreversible shifts of the planetary ecosphere. The repercussions could prove calamitous at local, regional, and global levels.
As a result, if humanity continues on its current trajectory, it will likely be unable to meet the needs of a world population that is expected to reach at least nine billion by 2050.5 As human biophysical pressures rise, threatening the stability of the planet, our understanding of development must transcend the current paradigm. We must urgently address the twin challenges of shrinking the human footprint and equitably sharing the limited resources and ecological space of Earth.
Impact – Laundry List Ext. There is no scenario where growth wins, competition hurts relation, energy security harms the environment, expansion leads to income inequality, and only a focus on sustain-based politics can solve
Meltzer, Steven, and Langley, professor at the Johns Hopkins School for Advanced International Studies, associate Director at CIC, where he works on development policy and the post-2015 agenda, rector of Policy and Research at Climate Advisers, February 2013
(Joshua, David, Claire, THE UNITED STATES AFTER THE GREAT RECESSION: THE CHALLENGE OF SUSTAINABLE GROWTH , pg 23-24, http://poseidon01.ssrn.com/delivery.php?ID=317112116088088090095116120006096004053017063051087026113098068127097026102127074024053029061030029060000114120126115023013073053061042009079098019126123071020069100059050000007072080068080107022104065079030097089011105065126124074091116029111017081&EXT=pdf&TYPE=2 )
American policymakers therefore face a paradox. On the one hand, the need for—and perhaps also the demand for—a new growth model is strong. On the other hand, the obstacles to its creation are daunting. Although predicting the future is an invidious task, especially when levels of global uncertainty are so high and American politics is so finely divided, we see four broad scenarios that could result from the interplay of these contrasting forces. • Scenario 1: Muddle Through. This scenario sees a continuation of business-as-usual, with a slight rebalancing of growth from the richest Americans to the middle classes, as a result of a combination of recovery, growth in high-value exports and an increase in income taxes for higher earners. A period of high energy prices stimulates significant gains in energy efficiency, but also sees the United States emerge as a major producer of unconventional oil as well as unconventional gas. This increases American energy security, but carbon emissions are only reduced slowly, as cheaper energy prices stimulate demand and reduce the competitiveness of renewables. Pressure is placed on China and India to discover and develop their own unconventional carbon reserves, with an inevitable impact on climate trajectories. Policymakers increasingly focus on adaptation to climate impacts and on geo-engineering as a potential route to reducing atmospheric concentrations of greenhouse gases.171 Internationally, levels of trust and cooperation between major powers is low, while a growing number of countries face powerful protest movements from both ends of the political spectrum. • Scenario 2: Going for Growth. This scenario builds on scenario 1 but assumes a singular focus on growing the economy. Unconventional oil and shale gas are rapidly exploited and often exported, with lower energy prices boosting the economy. Domestic coal demand continues to fall, but low-cost coal is sold aggressively to emerging markets. Consumption remains a key driver of economic growth, which is rapid but unevenly distributed, with some metropolitan areas prospering and others experiencing a steep decline in their wealth and population. The labor market performs strongly, but it does not generate the jobs needed to reduce income inequality. Economic mobility also remains low, but, on the whole, urban voters continue to support “growth first” politics. American greenhouse gas emissions fall, but only slowly, while its coal exports boost emissions in other countries. Declining federal government support for renewable energy means that gas does not become a bridging fuel to zero-carbon energy sources. American resilience to risk is strengthened by an improved fiscal position, but increased resources— diplomatic, military and economic—are used to react to, rather than manage, crises, both overseas and at home. America leads still, but in a highly competitive and often fractious world. • Scenario 3: Intelligent Design. This scenario is also consistent with strong levels of economic growth but includes a more deliberate attempt to reinforce positive trends, restrain negative ones and increase American resilience to a range of risks. Successive presidents focus on employment through renewed public investment in education and training, additional support for sectors with high export potential, and innovative approaches to regulation, especially in the financial sector. The Federal Reserve places greater emphasis on its mandate to maximize employment, alongside its current focus on interest rates and price stability.172 In the energy sector, the government takes a strategic approach to maximizing the country’s new opportunities, with policies to maximize the potential of gas to reduce emissions (e.g., use in transportation) and some contribution from the energy sector to fiscal consolidation (through reduced fossil fuel subsidies and an increased use of taxation or market instruments).173 None of these measures are especially dramatic, but taken together they have a measurable impact on sustainability and allow the United States to provide somewhat increased levels of leadership internationally. As a result, geopolitical outcomes are more cooperative, with some innovations in global governance, even though important stresses remain unaddressed.174 • Scenario 4: Emergency Response. Policy is driven in unpredictable directions by a series of shocks, such as a further breakdown in global financial systems, serious conflict or state failure, or a series of extreme weather events or clear evidence of disruptive climate change. In response to one or more of these shocks, the United States becomes a highly directive actor as it mobilizes what it perceives to be an urgent threat to its security. At a global level, net economic impact is negative, possibly strongly so, as growth slows in a number of countries. The impact on sustainability is hard to predict. It is most likely to be positive if an environmental shock triggers the crisis, although even then outcomes will be highly dependent on the timing of the event and the extent to which appropriate technologies are primed for rapid diffusion. The impact on geopolitics will also be mixed, especially if the world divides into victims and villains (with the United States on either side) and if coercive measures (e.g., trade sanctions) are used to deliver change. This scenario becomes an increasingly likely successor to the previous scenarios, assuming that patterns of growth take the world further outside the “safe operating space for humanity.
Impact – Pollination 2NC
The loss of species is a horrible event that could lead to a collapse of the environment and extinction- pollinators are uniquely key
Gates, Trauger and Czech 14- Professor of Wildlife Ecology, professor in natural resources management, PHD
(J. Edward, David L., and Brian, Peak Oil, “Envisioning an Alternative Future”, Economic Growth, and Wildlife Conservation, Chapter 15, p.317, 21 Nov 2014 http://link.springer.com/chapter/10.1007/978-1-4939-1954-3_15)//WB
Not only are extinctions irreversible, but they also are posing a serious threat to human health and well-being. A great analogy is to think of species as rivets in an airplane and humans as its passengers [43, 66]. For simplicity, let us ignore where we are going, who is piloting our airplane, or the appearance of new rivets; although, each of which has philosophical implications. The airplane can lose rivets up to a point, without sacrificing its integrity. However, at some point, the removal of a critical rivet will cause it to suddenly crash. It is impossible to say how many rivets can be lost, but if all loses are in a critical area of the plane, it may not take too many. As an example, the lost of one keystone species on which numerous other species are dependent could cause a trophic cascade, resulting in the extinctions of numerous species and compromising the functioning of the entire ecosystem [64]. Many species also provide critical ecosystem services, such as processing wastes and recycling nutrients, at no cost to us. Other species aid in the control of pest species in agriculture and forestry, reducing the use of insecticides and treatment costs to society. Different species of bees, flies, butterflies, birds, and bats are important plant pollinators worldwide. In fact, bees pollinate 71 of the 100 crops that provide 90% of human food. The estimated value of these crops is about US$ 200 billion annually [71]. Domestic honey bees (Apis mellifera) are critical pollinators in the USA. Their monetary value as commercial pollinators is estimated to be about US$ 15– 17 billion annually [37, 71]. For some high-value crops, in the absence of pollinators it might be cost-effective to pollinate them by hand. For example, in parts of China, the decline of native bees from overuse of pesticides and lack of natural bee habitats has forced farmers to pollinate apple and pear trees by hand (https://www. chinadialogue.net/article/show/single/en/5193, accessed 11 October 2013). However, there are not enough humans in the world to pollinate all of our crops by hand. Without bees, we would be forced to survive on a few wind-pollinated crops, such as wheat, barley, and corn. Picture supermarkets without almonds, apples, avocados, blackberries, blueberries, cantaloupes, cherries, cranberries, cucumbers, grapefruits, onions, oranges, peaches, pears, plums, pumpkins, raspberries, watermelons, and much more. We sometimes hear people ask, “What is the importance of this species or that species?” What they mean to say is, “What is its importance to humans?” We can certainly develop long lists of species and describe how they benefit or harm humans (if known); but, this exercise does not consider the importance of our listed species to other species, besides humans; or, that their ecological relationships may not have been studied; or, that most species on Earth are unknown to science, about 86% of the earth’s species [55]! Each species found on Earth is the result of many millions of years of evolution, is important in its own right, and is interwoven coevolutionarily with other species in a complex fabric of life that if torn or shredded could endanger our very own existence
Impact – Poverty 2NC
Economic growth exacerbates poverty
Nation Multimedia Group 13- uses National Statistical Coordination Board data
(“Economic growth masks poverty”, 5/4/13, http://www.nationmultimedia.com/opinion/Economic-growth-masks-poverty-30205224.html)//WB
Three years ago Philippine President Benigno Aquino III ran with the battle cry "Kung walang corrupt, walang mahirap" (If there is no corruption, there will be no poverty). It served as the cornerstone of his "Straight Path" platform. Halfway into his term, the president has achieved much, including the stellar economic growth that has earned the country an investment-grade credit status from Fitch Ratings. This is why the disclosure last week by the National Statistical Coordination Board (NSCB) that the incidence of poverty has remained unchanged for the past six years was a big embarrassment to the administration. Many believe this was the reason Economic Planning Secretary Arsenio Balisacan, who heads the NSCB, was bumped off the official delegation that flew with the president to Brunei last Wednesday for the Asean Summit. The NSCB report said poverty incidence for the first half of 2012 was 27.9 per cent. Comparing this with the 2006 and 2009 first-semester figures of 28.8 per cent and 28.6 per cent, respectively, it said poverty remained unchanged as the computed differences were not statistically significant. The NSCB noted that in terms of income distribution, 20 per cent of the population (or the poorest segment) accounted for only 6 per cent of the total national income, while the upper 20 per cent accounted for nearly 50 per cent. All efforts to address poverty will be for naught if the government continues to neglect agriculture. In a paper written in November 2008, Balisacan presented facts that remain true to this day: despite the relatively rapid pace of urbanisation in the past 20 years, poverty in the Philippines is still largely a rural phenomenon. Two of every three poor persons are in rural areas and mostly dependent on agricultural employment and incomes. Poverty incidence in agricultural households is roughly thrice that in the rest of the population. While agriculture's share in the total labour force has dropped from about half in the late 1980s to only a little more than a third by the mid-2000s, the sector continues to account for about 60 per cent of total poverty. Last week, Balisacan was reported as saying that the visible underemployment in agriculture was a persistent problem that always came up in labour survey results. "This means that agriculture sector workers work less than 40 hours a week, perhaps because there isn't much demand for labour in their areas, and they are looking for additional work, possibly because the wages they receive are not enough to meet their needs. If the problem of visible underemployment in agriculture is addressed, then incomes of farmers would increase, poverty incidence would decrease, and we would not be compromising food security," he said. The government should convince the private sector to invest in agriculture. It can start with the coconut industry, where, according to National Anti-Poverty Commission chief Joel Rocamora, the 70-billion peso (US$1.7 billion) coconut levy fund is available to spur farmers' production. Also, the government can improve the agriculture sector by simply coordinating with Agriculture Secretary Proceso Alcala, who has a number of programmes and projects that need only official support to get implemented. At a recent roundtable with the Inquirer's business section, Alcala cited a quedan system that allows coconut farmers to take part in value-added production from coco sugar to coco biodiesel through cooperative- and joint-venture-type arrangements, and the expansion of the programme under which farmers may borrow funds using an ATM card, to cover the top 20 rice-producing areas nationwide. In the next three years, the Aquino administration hopes to cut poverty incidence to 16.6 per cent, or half the 1991 rate of 33.1 per cent. It had better start aggressively addressing the issues stunting agriculture, otherwise, it will have no option but to again lower the poverty threshold income (or the minimum amount required to meet basic food and non-food needs) to meet its goal, as it did in 2011 when the threshold was lowered from the previous 52 to 46 pesos for every Filipino per day. Yes, this can cut the official number of poor people, but this is not what we need. We need the government to implement programmes and policies that will attack the root causes of poverty.
Poverty outweighs nuke war
Abu-Jamal 1998 (Mumia, Peace Activist, “A Quiet and Deadly Violence,” FLASHPOINTS, September 19, 1998, available online at http://www.flashpoints.net/mQuietDeadlyViolence.html, accessed 6/30/07)
This form of violence, not covered by any of the majoritarian, corporate, ruling-class protected media, is invisible to us and because of its invisibility, all the more insidious. How dangerous is it--really? Gilligan notes: [E]very fifteen years, on the average, as many people die because of relative poverty as would be killed in a nuclear war that caused 232 million deaths; and every single year, two to three times as many people die from poverty throughout the world as were killed by the Nazi genocide of the Jews over a six-year period. This is, in effect, the equivalent of an ongoing, unending, in fact accelerating, thermonuclear war, or genocide on the weak and poor every year of every decade, throughout the world. [Gilligan, p. 196] Worse still, in a thoroughly capitalist society, much of that violence became internalized, turned back on the Self, because, in a society based on the priority of wealth, those who own nothing are taught to loathe themselves, as if something is inherently wrong with themselves, instead of the social order that promotes this self-loathing.. This vicious, circular, and invisible violence, unacknowledged by the corporate media, uncriticized in substandard educational systems, and un-understood by the very folks who suffer in its grips, feeds on the spectacular and more common forms of violence that the system makes damn sure -that we can recognize and must react to it. This fatal and systematic violence may be called The War on the Poor.
Impact – Warming 2NC
Growth causes a laundry list of impacts [climate change, biodiversity loss, soil erosion, disruption of nitrogen and phosphorous cycles] and extinction—reject technological optimism, only cultural shift can solve
Althouse, Masters in economics, 2015 (Jeffrey, with advisors Carloes Young, Universidade Federal do Rio de Janeiro economics associate professor, Dany Lang, University of Paris 13 associate professor, and Eckhard Hein, Berlin School of Economics and Law professor, “Post-Keynesian Ecological Economics: Towards Greener Pastures,” EPOG Master’s Thesis, defended 6/23/15, p. 4-6, IC)
With the publication of the last UN International Panel on Climate Change (IPCC) report, it has become painstakingly clear that human activity has caused an unprecedented amount of change to the Earth’s natural processes, yielding significant impacts on both current and future generations (IPCC 2014). Both the pace of global warming due to greenhouse gas (GHG) emissions and the extent of its effects appear to have been vastly underestimated. Conservative estimates now put likely warming scenarios at between 3.7 and 4.5 °C this century, far beyond the supposedly “manageable” 2 °C warming limit set by international experts. Additional stress augurs poorly for already strained ecological systems, as well as economic growth and social stability. As the IPCC report states, “…climate-change impacts are projected to slow down economic growth, make poverty reduction more difficult, further erode food security, and prolong existing and create new poverty traps, the latter particularly in urban areas and emerging hotspots of hunger.” (IPCC 2014, p. 20) Climate change, however, is just one of many biophysical limits that are being pushed or surpassed at this time – ranging from biodiversity loss to soil erosion to disruption of nitrogen and phosphorous cycles and the future costs of accruing such ecological debts are likely to rise as global leaders fail to make serious commitments to stay within planetary boundaries (Rockström et al. 2009). As the world’s population continues to grow, along with an ever-expanding middle class, the availability of both renewable and nonrenewable resources are likely to face a number threats that will ripple through the economy. However, despite the overwhelming evidence of natural limits to continued economic growth, economics has been slow to shed old orthodoxies which overlook economic dependence on the natural world. Both the landmark “Limits to Growth” (Meadows et al. 1972) publication by the Club of Rome and further research by Nicholas Georgescu-Roegen (1970; 1971; 1976) over the limits continued growth, given finite material inputs and increasing energy needs to transform such resources, began a flurry of controversy and responses by the economic mainstream in the early 1970’s. Neoclassically trained economists, believing in perfect rationality, and perfect substitutability of natural inputs “adopted mathematical models of optimising behavior, assuming microeconomic axioms, regarding humans as self-interested utility maximisers, pricing externalities and conducting tradeoffs” (Spash & Ryan 2010, p. 2). Their unflinching optimism in price signals to bring about technological change allow even the most catastrophic environmental disasters to be easily overcome. Even modern ecological economics has largely been complicit in merely appropriating neoclassical and mainstream models of production with moderate alterations to include externalities, bringing about only negligibly different results rather than drastic ideological, behavioral, or political change (Spash 2012, Holt 2005). While they have been slow to pick up the mantle on this subject (Mearman 2009), a growing number of heterodox economists are beginning to set their sights on ecological issues and work across disciplines to bring new perspectives and a more realistic analysis to an old debate that needed reviving (Berg et al. 2015, Foley & Taylor 2014, Victor and Jackson 2014). PostKeynesians have been especially active in this field, bringing traditionally mico-based insights from environmental science into a decidedly “macro” framework (Rezai et al. 2012). The foundations of the postKeynesian paradigm historical time, fundamental uncertainty, and effective demand figure prominently in what is now being called “ecological macroeconomics” This paper provides a brief overview of postKeynesian ecological economics and the intuitions gleaned from it this far. It is found that while the postKeynesian lens has proven fruitful to better understand some ecological issues, much more must be done to understand the role that the drivers of growth play in finding a sustainable growth path. Increasing efficiency and productivity growth alone are likely insufficient and in some cases may even be counterproductive to achieve the drastic dematerialization of production needed to avoid catastrophic human and environmental damage from climate change. The uncertainty involved in predicting future climate scenarios, and human adaptability to them, should act as a catalyst for more radical solutions, rather than doubling down on technological optimism. A truly sustainable economic path will require a decrease in energy and material-intensive production, as well as a counterbalancing increase in socially beneficial services with low environmental impact. Achieving this in the limited time available will require a significant cultural shift towards sufficiency, rather than efficiency, a more equal distribution of wealth, and government policies that focus less on growth and more on wellbeing. Going forward, postKeynesian economists will need to adopt a coherent definition of sustainability founded in the fundamentals of uncertainty, irreversible time and the double-edged sword of effective demand in a finite world (Berr 2009). While certainly a subject to be debated, such issues beg for a complementary normative theory of social progress to better understand how to ensure inter and intra generational wellbeing and advance the shift of values away from growth-centric dogma. Wellbeing for current and future generations, without compromising natural processes or access to them, must hold primacy over growth.
Warming is real, human caused, and causes extinction—acting now is key to avoid catastrophic collapse
Dr. David McCoy et al., MD, Centre for International Health and Development, University College London, “Climate Change and Human Survival,” BRITISH MEDICAL JOURNAL v. 348, 4—2—14, doi: http://dx.doi.org/10.1136/bmj.g2510, accessed 8-31-14.
The Intergovernmental Panel on Climate Change (IPCC) has just published its report on the impacts of global warming. Building on its recent update of the physical science of global warming [1], the IPCC’s new report should leave the world in no doubt about the scale and immediacy of the threat to human survival, health, and well-being. The IPCC has already concluded that it is “virtually certain that human influence has warmed the global climate system” and that it is “extremely likely that more than half of the observed increase in global average surface temperature from 1951 to 2010” is anthropogenic [1]. Its new report outlines the future threats of further global warming: increased scarcity of food and fresh water; extreme weather events; rise in sea level; loss of biodiversity; areas becoming uninhabitable; and mass human migration, conflict and violence. Leaked drafts talk of hundreds of millions displaced in a little over 80 years. This month, the American Association for the Advancement of Science (AAAS) added its voice: “the well being of people of all nations [is] at risk.” [2] Such comments reaffirm the conclusions of the Lancet/UCL Commission: that climate change is “the greatest threat to human health of the 21st century.” [3] The changes seen so far—massive arctic ice loss and extreme weather events, for example—have resulted from an estimated average temperature rise of 0.89°C since 1901. Further changes will depend on how much we continue to heat the planet. The release of just another 275 gigatonnes of carbon dioxide would probably commit us to a temperature rise of at least 2°C—an amount that could be emitted in less than eight years. [4] “Business as usual” will increase carbon dioxide concentrations from the current level of 400 parts per million (ppm), which is a 40% increase from 280 ppm 150 years ago, to 936 ppm by 2100, with a 50:50 chance that this will deliver global mean temperature rises of more than 4°C. It is now widely understood that such a rise is “incompatible with an organised global community.” [5]. The IPCC warns of “tipping points” in the Earth’s system, which, if crossed, could lead to a catastrophic collapse of interlinked human and natural systems. The AAAS concludes that there is now a “real chance of abrupt, unpredictable and potentially irreversible changes with highly damaging impacts on people around the globe.” [2] And this week a report from the World Meteorological Office (WMO) confirmed that extreme weather events are accelerating. WMO secretary general Michel Jarraud said, “There is no standstill in global warming . . . The laws of physics are non-negotiable.” [6]
A2 “Growth Good – Enviro”
Growth requires more raw materials—that destroys the environment
Maxton, Club of Rome secretary general, 2015 (Graeme, “Economic growth doesn’t create jobs, it destroys them,” The Guardian, 4/21/15, http://www.theguardian.com/sustainable-business/2015/apr/21/jobs-economic-growth-inequality-environment-club-of-rome, IC)
3. Boosting growth is not the way to solve environmental problems
Economic growth is the cause of them. It requires a constant increase in the flow of raw materials extracted from the planet to be turned into goods, services and waste. The more we grow, certainly using current economic thinking, the more resources we need to use and the more pollution we create.
Rather then pursuing economic growth then, we should tackle our problems head on. We should develop policies to ensure that everyone has enough money to live on, because it leads to healthier and more stable societies. We should plan to reduce the gap between rich and poor, and we need to stop prevaricating when it comes to the environment and actually do something.
A2 “Growth Good – Inequality”
Growth doesn’t solve inequality—empirically proven. Tech exacerbates the problem
Maxton, Club of Rome secretary general, 2015 (Graeme, “Economic growth doesn’t create jobs, it destroys them,” The Guardian, 4/21/15, http://www.theguardian.com/sustainable-business/2015/apr/21/jobs-economic-growth-inequality-environment-club-of-rome, IC)
Because the system is designed to reward those who already have money and assets, the free market economic model takes wealth from the poor and gives it to the rich. This is especially true since 2008 as government and consumer debts in the rich world have risen and average incomes have stagnated or fallen. The gap between the rich and poor is bigger today than in 1914. The gap between rich countries and poor ones is also much greater.
The coming wave of new technology will make these problems worse. A study on the future of employment at Oxford University predicts that almost half of all jobs are at threat from robotisation in the next 20 years. Many of these are highly skilled jobs, such as those done by pilots, doctors, accountants and lawyers. The jobs that will be left are those that require a great deal of personal attention or artistic input – in other words, those that are generally poorly paid.
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